Low-energy-consumption chamber type drying machine for sludge treatment

Abstract

The invention relates to the technical field of sludge treatment equipment, in particular to a low-energy-consumption compartment type drying machine for sludge treatment. According to the technical scheme, the drying machine comprises a drying machine main box body structure, an overall placement supporting seat is arranged at the bottom of the drying machine main box body structure, and the drying machine is characterized in that a material placement matching space is formed in the drying machine main box body structure, and a main body material placement matching opening is formed in the front face of the drying machine main box body structure; an input placement matching cover is arranged outside the main body material placement matching opening, a display convenient operation area is arranged on the front face of the drying machine main box body structure, and the display convenient operation area is composed of a function display module and operation control keys. The device has the advantages that the material input port does not need to be opened in the operation process, the loss of internal energy during material input and output can be effectively reduced, the overall energy consumption during treatment is lower, and the treatment efficiency is higher.

Description

Technical Field

[0001] This invention relates to the field of sludge treatment equipment technology, and in particular to a low-energy sludge treatment chamber dryer. Background Technology

[0002] Among sludge treatment equipment, the box-type dryer is a relatively important and efficient processing device. In the existing box-type dryers, the material placement port on the front is used to directly place the sludge-filled box or rack into the dryer. After drying, the entire box is removed by a forklift. The efficiency of putting in and taking out the sludge is relatively low, and there is also a large heat loss inside during the process, resulting in relatively low overall efficiency. Summary of the Invention

[0003] The purpose of this invention is to provide a low-energy-consumption sludge treatment chamber dryer. It features two sets of inlets in the material feeding area, eliminating the need for a forklift for material loading. The material is quickly and directly transported into the chamber dryer via a conveyor system. During drying, the internal drying process is easily monitored in real-time via a convenient display on the front panel. Material is removed directly from the bottom main output port. In operation, the dried material is rapidly and continuously transported via a conveyor belt at the output port. Since the material inlets do not need to be opened during operation, energy loss during material input and output is effectively reduced, resulting in lower overall energy consumption and higher processing efficiency.

[0004] The technical solution of the present invention is as follows: A low-energy sludge treatment chamber-type dryer includes a main body structure. The bottom of the main body structure has an integral support base. The main body structure has an internal material placement space, a main material placement port on the front, an input placement cover on the outside, a convenient operation display area on the front consisting of a function display module and operation control buttons, and an integrated electrical control box at the rear. The upper end of the main housing structure of the drying machine is provided with a spare input connection pipe that communicates with the internal material placement space. The bottom of the main housing structure of the drying machine is provided with a main output connection port. Inside the main housing structure of the drying machine, above the main output connection port, is an output control safety module. The front exterior of the output control safety module is provided with a control operation handle. Inside the output control safety module, there are material support baffles evenly distributed vertically. Inside the main housing structure of the drying machine, below the material support baffles, is an inclined material output guide plate.

[0005] Furthermore, the height of the overall support base in the vertical direction can be adjusted by rotating it via a thread.

[0006] Furthermore, the input placement cover is opened and closed via a rotational connection through an external connecting shaft.

[0007] Furthermore, the integrated electrical control box is detachably connected to the main body structure of the dryer, and the integrated electrical control box is connected to the connecting line on the main body structure of the dryer via a main data connection cable using a quick-connect plug.

[0008] Furthermore, the left and right sides of the output control safety module are combined with the internal fitting structure of the main body of the dryer through a sliding fit.

[0009] Furthermore, the input placement cover is provided with a double sealing structure at the mating position with the main body structure of the dryer.

[0010] Furthermore, the front of the input placement cover is provided with a visual observation window that allows direct observation of the interior.

[0011] The beneficial effects of this invention are: This invention features two sets of inlets in the material feeding area, eliminating the need for a forklift. The material is quickly and directly transported into the box-type dryer via a conveyor system. During drying, the convenient operation area on the front panel allows for real-time and precise control of the drying process. Material is removed via the main output port at the bottom. In operation, the dried material is rapidly and continuously transported via a conveyor belt at the output port. Since the material inlets do not need to be opened during operation, energy loss during material input and output is effectively reduced, resulting in lower overall energy consumption and higher processing efficiency. Attached Figure Description

[0012] Figure 1 This is a three-dimensional structural diagram of the present invention; Figure 2 This is a front view of the present invention; Figure 3 This is a schematic diagram of the left side of the present invention; Figure 4 This is a schematic diagram on the right side of the present invention; Figure 5 This is a top view of the present invention; Figure 6 This is a bottom view diagram of the present invention; Figure 7 This is a three-dimensional structural diagram of the second direction of the present invention; In the diagram: 1. Main body structure of the dryer; 2. Input placement cover; 3. Display and convenient operation area; 4. Overall electrical control box; 5. Spare input pipe; 6. Main output port; 7. Output control safety module; 8. Control operation handle; 9. Material support baffle; 10. Overall placement support base. Detailed Implementation

[0013] like Figures 1 to 7As shown, a low-energy sludge treatment chamber-type dryer includes a main body structure 1. The bottom of the main body structure 1 is equipped with an integral support base 10. The interior of the main body structure 1 has a material placement space where sludge and other materials requiring drying are placed. The front of the main body structure 1 has a main material placement port, which can be used with material conveying equipment for convenient and efficient material input without the need for forklifts. An input placement cover 2 is provided outside the main material placement port. The front of the main body structure 1 has a convenient operation display area 3, which consists of a function display module and operation control buttons, enabling more intuitive display of internal information and allowing for routine operation control. An integrated electrical control box 4 is located at the rear of the main body structure 1, controlling the electrical components during operation. Its rear location enhances overall safety during use. The upper end of the main housing structure 1 of the dryer is equipped with a spare input pipe 5 that communicates with the internal material placement space, allowing for material input as needed. This location can also be used to input drying auxiliary materials or drying gases, providing greater flexibility and meeting various usage requirements. The bottom of the main housing structure 1 has a main output port 6, which is the primary output port for material discharge. Inside the main housing structure 1, above the main output port 6, is an output control safety module 7, which controls the material output. The output control safety module 7 has a control handle 8 on its front exterior, allowing manual pulling out to control the overall material output. Pulling out further results in faster material output. Inside the output control safety module 7 are evenly distributed material support baffles 9. When closed, these baffles prevent material output, ensuring the material remains inside the dryer during drying. The main body structure 1 of the dryer has an inclined material output guide plate located at the lower end of the material support baffle 9. When the material is output, it can guide and convey the material, making the material output smoother and ensuring higher load-bearing strength of the overall structure.It adopts a brand-new structural design, setting two sets of inlets in the material feeding area. Material feeding does not require a forklift; the conveyor system quickly and directly transports the material into the chamber dryer. During drying, the convenient operation area on the front of the machine allows for real-time and precise control of the internal drying process. Material is removed directly from the bottom main output port. In operation, the dried material is quickly and continuously transported via a conveyor belt at the output port. The material inlet does not need to be opened during operation, effectively reducing energy loss during material input and output. Overall, it has lower energy consumption and higher processing efficiency.

[0014] Preferably, the height of the overall placement support 10 in the vertical direction can be adjusted by rotating the screw thread, which makes it more convenient to place and use the whole, and allows for adjustment of the overall height.

[0015] Preferably, the input placement cover 2 is opened and closed by rotational engagement via an external connecting shaft, resulting in smoother engagement and better durability of the connection point.

[0016] Preferably, a low-energy sludge treatment chamber-type dryer includes a main body structure 1. The bottom of the main body structure 1 is provided with an integral support base 10. The interior of the main body structure 1 has a material placement space where sludge and other materials requiring drying are placed. The front of the main body structure 1 has a main material placement port, which can be used in conjunction with material conveying equipment for convenient and efficient material input without the need for forklifts. An input placement cover 2 is provided outside the main material placement port. The front of the main body structure 1 has a convenient operation display area 3, which consists of a function display module and operation control buttons, enabling more intuitive display of internal information and allowing for routine operation control. An integrated electrical control box 4 is located at the rear of the main body structure 1, controlling the electrical components during operation. Its rear location enhances overall safety during use. The upper end of the main housing structure 1 of the dryer is equipped with a spare input pipe 5 that communicates with the internal material placement space, allowing for material input as needed. This location can also be used to input drying auxiliary materials or drying gases, providing greater flexibility and meeting various usage requirements. The bottom of the main housing structure 1 has a main output port 6, which is the primary output port for material discharge. Inside the main housing structure 1, above the main output port 6, is an output control safety module 7, which controls the material output. The output control safety module 7 has a control handle 8 on its front exterior, allowing manual pulling out to control the overall material output. Pulling out further results in faster material output. Inside the output control safety module 7 are evenly distributed material support baffles 9. When closed, these baffles prevent material output, ensuring the material remains inside the dryer during drying. The main housing structure 1 of the dryer has an inclined material output guide plate located at the lower end of the material support baffle 9. This guide plate directs and conveys the material during output, improving its smoothness and ensuring higher load-bearing capacity of the overall structure. The integrated electrical control box 4 is detachably connected to the main housing structure 1. The integrated electrical control box 4 is connected to the main housing structure 1 via a quick-connect cable using a main data cable, enhancing the convenience and efficiency of electrical component installation and maintenance.

[0017] Preferably, the left and right sides of the output control safety module 7 are combined with the internal fitting structure of the main body structure 1 of the dryer through a sliding fit, which improves the smoothness of the fit during the material output control process and enhances the durability during use.

[0018] Preferably, the input placement cover 2 and the main body structure 1 of the dryer are provided with a double sealing structure to ensure better sealing during the fit and avoid heat loss at the fit position.

[0019] Preferably, a low-energy sludge treatment chamber-type dryer includes a main body structure 1. The bottom of the main body structure 1 is provided with an integral support base 10. The interior of the main body structure 1 has a material placement space where sludge and other materials requiring drying are placed. The front of the main body structure 1 has a main material placement port, which can be used in conjunction with material conveying equipment for convenient and efficient material input without the need for forklifts. An input placement cover 2 is provided outside the main material placement port. The front of the main body structure 1 has a convenient operation display area 3, which consists of a function display module and operation control buttons, enabling more intuitive display of internal information and allowing for routine operation control. An integrated electrical control box 4 is located at the rear of the main body structure 1, controlling the electrical components during operation. Its rear location enhances overall safety during use. The upper end of the main housing structure 1 of the dryer is equipped with a spare input pipe 5 that communicates with the internal material placement space, allowing for material input as needed. This location can also be used to input drying auxiliary materials or drying gases, providing greater flexibility and meeting various usage requirements. The bottom of the main housing structure 1 has a main output port 6, which is the primary output port for material discharge. Inside the main housing structure 1, above the main output port 6, is an output control safety module 7, which controls the material output. The output control safety module 7 has a control handle 8 on its front exterior, allowing manual pulling out to control the overall material output. Pulling out further results in faster material output. Inside the output control safety module 7 are evenly distributed material support baffles 9. When closed, these baffles prevent material output, ensuring the material remains inside the dryer during drying. The main housing structure 1 of the dryer has an inclined material output guide plate located at the lower end of the material support baffle 9. This guide plate directs and conveys the material during output, improving its smoothness and ensuring higher load-bearing capacity of the overall structure. The input placement cover 2 has a viewing window on its front, providing convenient and intuitive observation of the material's condition.

[0020] The above description represents the preferred embodiments of the present invention. It should be noted that those skilled in the art can make various improvements or substitutions without departing from the principles of the present invention, and these improvements or substitutions should also be considered within the scope of protection of the present invention.

Claims

1. A low-energy sludge treatment van dryer, comprising a dryer main box structure (1), the bottom of the dryer main box structure (1) is provided with an integral placement support seat (10), characterized in that: The inside of the main box body structure (1) is provided with a material placing cooperation space, the front of the main box body structure (1) is provided with a main material placing cooperation port, the outside of the main material placing cooperation port is provided with an input placing cooperation cover (2), the front of the main box body structure (1) is provided with a display convenient operation area (3), the display convenient operation area (3) is composed of a function display module and an operation control button, the rear side of the main box body structure (1) is provided with an overall electrical control box (4), the upper end of the main box body structure (1) is provided with a standby input cooperation pipeline (5) in communication with the material placing cooperation space inside, the bottom of the main box body structure (1) is provided with a main output cooperation port (6), the inside of the main box body structure (1) is provided with an output control safety module (7) at the upper end of the main output cooperation port (6), the front of the output control safety module (7) is provided with a control operation handle (8), the inside of the output control safety module (7) is provided with a material cooperation support baffle (9) uniformly distributed upwards and downwards, the inside of the main box body structure (1) is provided with an inclined material output guide cooperation plate at the lower end position of the material cooperation support baffle (9).

2. The low energy consumption sludge treatment van dryer according to claim 1, characterized in that: The height of the overall placing support seat (10) in the up-down direction can be adjusted by screw rotation.

3. The low energy consumption sludge treatment van dryer according to claim 1, characterized in that: The input placing cooperation cover (2) is opened and closed by rotating cooperation through the external connecting shaft.

4. The low energy consumption sludge treatment van dryer according to claim 1, characterized in that: The overall electrical control box (4) is connected with the main box body structure (1) in a detachable manner, and the overall electrical control box (4) is connected with the connecting line on the main box body structure (1) in a quick plug connection manner through a total data connection cable.

5. The low energy consumption sludge treatment van dryer according to claim 1, characterized in that: The left and right sides of the output control safety module (7) are combined with the cooperation structure inside the main box body structure (1) in a sliding cooperation manner.

6. The low energy consumption sludge treatment compartment dryer as claimed in claim 1, wherein: The input placing cooperation cover (2) and the cooperation position of the main box body structure (1) are provided with a double sealing cooperation structure.

7. The low energy consumption sludge treatment van dryer according to claim 1, characterized in that: The front of the input placing cooperation cover (2) is provided with a visual observation window capable of directly observing the inside.

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